[webinar] Embracing Digital Transformation in Maintenance & Plant Operations | March 13 at 10AM EST – Register Now
The Impact of Lower Quality Process Materials on Manufacturing Equipment Downtime
The Impact of Lower Quality Process Materials on Manufacturing Equipment Downtime
IDCON INC, Reliability and Maintenance Consulting and Training
Posted 1/16/2024
What is the impact of lower quality process materials on manufacturing equipment downtime? Low-quality process materials can significantly impact manufacturers by causing production delays, increased defects, higher maintenance costs, and a decrease in the overall quality of the final products. It can lead to waste, higher rejection rates, and damage to machinery, affecting both the efficiency and reputation of the manufacturing process.
Manufacturing industries rely heavily on the quality of their materials to ensure a smooth production process. When lower quality materials are introduced, it can have significant repercussions, particularly on manufacturing equipment downtime. The repercussions of using subpar materials can result in increased equipment downtime, affecting the efficiency and productivity of the entire manufacturing operation.
Effects on Manufacturing Equipment Downtime
Increased Wear and Tear
Low-quality materials often lack the necessary durability and resilience required for the machinery. This leads to increased wear and tear on equipment, causing frequent breakdowns and necessitating more frequent maintenance.
Malfunction and Breakdowns
Subpar materials can result in the malfunctioning of machinery or even sudden breakdowns. This not only halts the production process but also demands immediate attention and repair, contributing to prolonged equipment downtime.
Inefficient Performance
Manufacturing equipment functions optimally when supported by high-quality materials. The use of lower quality materials can lead to inefficiencies, decreasing the overall productivity and throughput of the manufacturing process.
Determining if Low-Quality Materials are the Problem
Identifying the root cause of increased equipment downtime due to low-quality materials requires a comprehensive approach. Here are some methods to determine if the materials used are causing issues:
Performance Monitoring
Regular monitoring of equipment performance against the specified benchmarks can highlight deviations caused by material quality issues. Any discrepancies can be further investigated to ascertain if materials are the cause.
Quality Testing
Implementing stringent quality control measures such as material testing and analysis can reveal discrepancies in the expected and actual material properties. Testing for durability, strength, and composition can uncover if the materials are below standard.
Comparative Analysis
Comparing the performance and longevity of equipment when using different grades or sources of materials can pinpoint any discrepancies arising from the quality of the materials.
Supplier Evaluation
Assessing the consistency and reliability of materials obtained from different suppliers can help identify if a particular source or grade of materials is causing issues.
Historical Data Analysis
Reviewing historical records of equipment performance and downtime can indicate correlations between material changes and increased downtime.
Conclusion
The impact of lower quality process materials on manufacturing equipment downtime is substantial. To mitigate these challenges, it is crucial to implement stringent quality control measures, regular testing, and thorough supplier evaluations to ensure that only high-quality materials are utilized in the manufacturing process. By addressing the root cause of equipment downtime related to material quality, manufacturers can enhance efficiency, reduce costs, and maintain a high standard of production.
IDCON INC, a TRM Company
IDCON INC, a TRM Company provides side-by-side reliability and maintenance consulting and training designed to keep your equipment running. For over 45 years, they have partnered with hundreds of manufacturing plants around the world to eliminate the costs and the pressure caused by unreliable equipment.
They offer in person and online reliability and maintenance, spare parts management, planning and scheduling, shutdown/turnaround optimization, preventive maintenance and root cause problem elimination training; strategic consulting and coaching; and provide a number of free online resources. Run your plant, don't let it run you.
One common way of controlling the state-of-health of a piece of equipment is to monitor its vibration signature. High quality data is required, so using high-resolution analog-to-digital converters (ADCs) to acquire and digitize the analog vibration signal is a key enabler to the arena of predictive maintenance.
One common way of controlling the state-of-health of a piece of equipment is to monitor its vibration signature. High quality data is required, so using high-resolution analog-to-digital converters (ADCs) to acquire and digitize the analog vibration signal is a key enabler to the arena of predictive maintenance.
Proper lubrication is an essential maintenance function and changing oil is one aspect of the process. Unlike changing the oil in your car based upon time or miles, oil changes for industrial equipment should be based on need where no other practical solution to restore proper lubrication is available. Too often, we schedule an oil change to rectify a contamination problem or when excessive wear is detected. In neither case is the oil change a certain correction of the root cause of the problem, and it wastes good money and further stresses the environment with hazardous waste.
Proper lubrication is an essential maintenance function and changing oil is one aspect of the process. Unlike changing the oil in your car based upon time or miles, oil changes for industrial equipment should be based on need where no other practical solution to restore proper lubrication is available. Too often, we schedule an oil change to rectify a contamination problem or when excessive wear is detected. In neither case is the oil change a certain correction of the root cause of the problem, and it wastes good money and further stresses the environment with hazardous waste.
Unfortunately, when it comes to steam traps, people often ignore them. There's a complacency about them that is costing steam users much more than they realize. The hard reality of a plant maintaining its boiler and forgetting about the rest of the steam system can be a horribly wasteful proposition. Losses can include not only wasted energy but replacement of damaged equipment and misuse of man-hours. It is not uncommon to discover system losses in the hundreds of thousands of dollars.
Unfortunately, when it comes to steam traps, people often ignore them. There's a complacency about them that is costing steam users much more than they realize. The hard reality of a plant maintaining its boiler and forgetting about the rest of the steam system can be a horribly wasteful proposition. Losses can include not only wasted energy but replacement of damaged equipment and misuse of man-hours. It is not uncommon to discover system losses in the hundreds of thousands of dollars.
In addition to an increase in greenfield plants, Stone & Webster Management Consultants Inc. (Stone & Webster Consultants) has seen increased interest in solid fuel repowering of existing oil- and gas-fired boilers. The primary reason for this interest is that repowering an existing gas- and/or oil-fired power plant with solid fuel boilers potentially has a lower capital cost and lower development risk than developing a new greenfield solid fuel – fired power plant.
In addition to an increase in greenfield plants, Stone & Webster Management Consultants Inc. (Stone & Webster Consultants) has seen increased interest in solid fuel repowering of existing oil- and gas-fired boilers. The primary reason for this interest is that repowering an existing gas- and/or oil-fired power plant with solid fuel boilers potentially has a lower capital cost and lower development risk than developing a new greenfield solid fuel – fired power plant.
Research into bearing failures1 shows that just over half of them are a result of contamination of the bearing oil. Clearly, it is essential to ensure that this is minimized and, if possible, eliminated to achieve the optimum bearing life necessary to improve equipment reliability.
Research into bearing failures1 shows that just over half of them are a result of contamination of the bearing oil. Clearly, it is essential to ensure that this is minimized and, if possible, eliminated to achieve the optimum bearing life necessary to improve equipment reliability.
Nowadays most everyone has a powerful computer in their pocket, their phone. Many of us are using them in maintaining our plants. Whether you are neutral or a devotee of the iPhone or Android devices, I think it’s safe to say we have only just scratched the surface of possibilities for using our smartphones to maintain our plants. Just think about how good it is to always have a great camera in your pocket with pictures viewable instantly. Does anybody remember the hassle of film? Waiting days to find out if an image was captured and how well it looked.
Nowadays most everyone has a powerful computer in their pocket, their phone. Many of us are using them in maintaining our plants. Whether you are neutral or a devotee of the iPhone or Android devices, I think it’s safe to say we have only just scratched the surface of possibilities for using our smartphones to maintain our plants. Just think about how good it is to always have a great camera in your pocket with pictures viewable instantly. Does anybody remember the hassle of film? Waiting days to find out if an image was captured and how well it looked.
Are harmonics real or just an artifact or result of processing the waveform through the FFT? This is a question that comes up a lot among vibration analysts, or anyone working with signals and signal processing.
Are harmonics real or just an artifact or result of processing the waveform through the FFT? This is a question that comes up a lot among vibration analysts, or anyone working with signals and signal processing.
